PathRTM: Real-time prediction of KI-67 and tumor-infiltrated lymphocytes
Steven Zvi Lapp, Eli David, Nathan S. Netanyahu

TL;DR
PathRTM is a deep learning model that improves the accuracy and efficiency of estimating KI-67 proliferation and tumor-infiltrated lymphocytes in cancer diagnostics, with the ability to predict cell sizes using bounding boxes.
Contribution
We introduce PathRTM, a novel deep neural network that extends RTMDet with higher-level supervision for better estimation of cancer-related cellular markers.
Findings
Achieves 41.3% average precision in detection tasks
Outperforms previous methods in accuracy and runtime
Enables cell size estimation through bounding box predictions
Abstract
In this paper, we introduce PathRTM, a novel deep neural network detector based on RTMDet, for automated KI-67 proliferation and tumor-infiltrated lymphocyte estimation. KI-67 proliferation and tumor-infiltrated lymphocyte estimation play a crucial role in cancer diagnosis and treatment. PathRTM is an extension of the PathoNet work, which uses single pixel keypoints for within each cell. We demonstrate that PathRTM, with higher-level supervision in the form of bounding box labels generated automatically from the keypoints using NuClick, can significantly improve KI-67 proliferation and tumorinfiltrated lymphocyte estimation. Experiments on our custom dataset show that PathRTM achieves state-of-the-art performance in KI-67 immunopositive, immunonegative, and lymphocyte detection, with an average precision (AP) of 41.3%. Our results suggest that PathRTM is a promising approach for…
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Taxonomy
TopicsDigital Imaging for Blood Diseases · Immunotherapy and Immune Responses · AI in cancer detection
MethodsRTMDet: An Empirical Study of Designing Real-Time Object Detectors
